JP4568523B2 - Insulin pump communication system capable of wireless communication - Google Patents

Description

The present invention incorporates a wireless communication chip capable of wireless communication in an insulin pump and a blood glucose meter so that the insulin pump is driven by mutual communication, and a separate wireless communication device is linked to the server, and the insulin pump and blood glucose measurement The present invention relates to an insulin pump communication system capable of wireless communication that enables individual devices to be controlled.

  Diabetes, which is said to be a typical civilization disease in the 20th century, is suffering from over 100 million of the world's population, and about 2 million people are estimated to be diabetic in Korea. About 10% of patients are diabetics. Until now, diabetes has been recognized as a regulating disease rather than a complete cure. Failure to adjust can result in loss of life with various complications. The domestic mortality from such diabetes has increased to 11.5 (1990 statistics) for a population of 100,000, and is known as a terrible disease.

  Diabetes mellitus is a disease that shows a symptom in which the blood glucose level is 140 mg / dl or more when fasting, or 200 mg / dl or more after 2 hours of meal time. And the exact cause of the increase in blood sugar level has not yet been investigated.

  The reason known to date is that there is an abnormality in insulin that assimilate sugars. Insulin abnormalities can be caused by pancreatic β-cells that secrete insulin, which cannot produce enough insulin. The action of insulin is inferior and blood glucose assimilation cannot be performed appropriately, and blood sugar increases due to so-called insulin resistance. Currently, diabetes treatment methods are roughly divided into diet therapy, exercise therapy, drug therapy, and insulin injection, and pancreas transplantation is also being tried.

  The insulin injection method is a treatment method used for insulin-dependent diabetic patients, but is also effective for non-insulin-dependent patients. Insulin injection is a method in which it is common to give 1-2 insulin injections per day, but the amount of insulin secreted in the human body is not constant, and it is 3 times before and after mealtime. Is secreted in large amounts and at other times in small amounts, so it is necessary to inject an average value of insulin secretion in the human body. In such a 1-2 injection method, insulin is insufficient after meals, resulting in hyperglycemia, while at night, the amount of insulin increases and hypoglycemia occurs. That is, there is a disadvantage that the insulin supply becomes abnormal and the body becomes abnormal. Therefore, the reason why the existing insulin injection method has not helped to prevent diabetic complications is because the change in insulin secretion of normal subjects could not be provided. Therefore, what has been proposed as a further improved treatment method is a so-called insulin pump (mechanical artificial pancreatic organ) that adjusts the amount of insulin injected by a computer to bring it closer to normal insulin secretion in the human body. ) And pancreatic β-cell transplant surgery.

  In general, an auto-injector for long-time injection (called an insulin pump, an insulin injector, an insulin auto-injector, etc.) has a structure in which a push means for pressing a syringe piston is coupled to a housing that houses an injection syringe. This includes Japanese public utility Showa 52-3292 and US Pat. No. 4,417,889. However, such a method is inconvenient when used by an elderly person because of its complicated usage.

  For this purpose, the present applicant has developed an insulin pump of Korean Patent Registration No. 0307191 which is simple to use and miniaturized. As shown in FIG. 1, when refilling the injection solution of the syringe after use, the connecting member 2 and the lid 110 are separated from the housing 120, and the piston 122 and the rotating shaft coupled together with the used syringe 21. Both 131 are separated from the housing 120. A portion of the rotary shaft 131 coupled to the pinton push means 150 after the syringe 21 is refilled with an injection solution while the rotary shaft 131 and the piston 122 of the syringe are easily visually confirmed and set in an initial state. Is inserted into the housing 120 from above, and then the lid 110 is joined to the top of the housing 120 while forming an airtight state. Then, the connecting member 2 is coupled at the upper part of the lid 110. The housing 120 corresponding to the lid 110 includes a syringe 21, a piston 122, a piston push means 150, and a rotating shaft 131 that provides power through the power providing means 130. In the housing 120, a control button part 123 for inputting a command to a control board (not shown), a display part 124 such as an LCD for displaying a control state, a battery lid 125 for fixing a battery for supplying power, A reset button 121 for executing a reset function is included. Reference numeral 140 denotes a floor lid.

  FIG. 2 is a block diagram showing an example of a control circuit of such a syringe, a control button unit 123 for giving a control instruction, a microcomputer function control unit 170 for recognizing the operation of the control button unit 123, A display unit 124 that outputs and displays the recognized data, a ROM 165 that stores various data and programs, a motor drive unit 167 that drives a motor 168 by the control output of the control unit 170, and a motor drive unit 167 that rotates. A configuration including a motor 168 whose force is controlled and a photocoupler 169 that senses the phase of the motor 168 can be illustrated.

  A desirable example of the control unit 170 may be configured as first and second control units 171 and 172 having the same function so that the function can be maintained even if at least one abnormality occurs. Terminals (P1-P5 and P1′-P2 ′) shown in the control units 171 and 172 are ports connected to data and / or bus lines. Examples of the motor 68 include a stepping motor and a servo motor.

  FIG. 3 shows a partial cross-sectional view of a general blood glucose measuring device 200. The blood glucose measuring device 200 controls the measurement lamp 211 and converts it so as to recognize the value measured by the measurement lamp 211. A measurement lamp hole 221 through which the measurement lamp 211 is exposed in a penetrating state, a measurement housing 223 having an insertion hole 222 into which the measurement probe 230 is fitted, and a measurement probe 230 so that the fitting state of the measurement probe 230 is fixed. The fixing projection 224 is arranged so as to be able to appear and retract with respect to the housing 223. The measurement probe 230 includes a fitting hole 231 into which the fixing protrusion 224 is fitted, a light transmission hole 233 formed at a position corresponding to the measurement lamp 211 when the measurement probe 230 is fitted into the insertion hole 222, and the light. And a measurement plate 235 that covers the transmission hole 233. Reference numeral 240 denotes a housing to which the measurement housing 223 is fixedly coupled.

  FIG. 4 is a block diagram showing an embodiment of the control unit 210 of FIG. 3, and shows the configuration of the control unit 210 with respect to the function of receiving the command of the microcomputer 250 and the measurement value of the measurement lamp 211.

  The control unit 210 converts the output signal through one terminal (P7) of the microcomputer 250 into an analog signal, and the light emission lamp (measurement lamp 211) based on the converted output of the digital / analog converter 212. A lamp driving unit 213 for driving 211-1), a measurement lamp 211 having a light-receiving lamp (211-2) for receiving light emitted from the measurement plate 235 for light emitted by the light-emitting lamp (211-1), and The lamp signal receiving unit 214 that receives and amplifies the received light via the light receiving lamp (211-2) of the measurement lamp 211, and the received output of the lamp signal receiving unit 214 is converted into a digital signal so that the terminal (P7 And an analog-to-digital converter 215 to be provided.

  FIG. 5 is a graph showing an example of a blood glucose level measured through the configuration of FIGS. 3 and 4.

  On the other hand, the Bluetooth (registered trademark) draft (BLUETOOTH PROTOCOL) was proposed by Ericsson as a short-range wireless communication concept that replaces wired communication and infrared communication at short distances, and transmission of both voice and data is possible The Bluetooth communication technique, which is a short-range wireless communication method, is expected to be widely used in the field of future communication terminals. Currently, the Bluetooth communication technique is applied to a mobile phone and can be used in a public place. No technology is provided to solve the ringtone problem for telephones. A technique for solving this problem is disclosed in Patent Document 1, for example, as shown in FIGS.

  FIG. 6 shows a simplified configuration diagram of such a mobile phone that performs Bluetooth communication with the Bluetooth communication device. The Bluetooth communication device 300 installed in a public place searches for all the mobile phones 400 within the Bluetooth wireless communication distance, and performs a control operation for switching to the manner mode with respect to these by wireless transmission. It has become. At this time, the Bluetooth communication device 300 becomes a master (MASTER), and all mobile phones within the communication distance of the Bluetooth communication device 300 become slaves (SLAVE). The mobile phone 400 that can be controlled by the Bluetooth communication device 300 must include the Bluetooth module 410 in itself.

  FIG. 7 shows a block diagram of the Bluetooth communication device 300 of FIG. The Bluetooth communication apparatus 300 includes an RF transmission unit 310, an RF reception unit 320, a baseband (BASEBAND) processing unit 330, and a communication control unit 340. The RF transmission unit 310, the RF reception unit 320, and the baseband (BASEBAND) processing unit 330 constitute a transmission / reception unit 350.

  The RF transmission unit 310 modulates and amplifies the wireless transmission data packet generated by the baseband processing unit 330 to a set frequency band and transmits the data packet.

  The RF receiving unit 320 suppresses the amplification of the noise of the received frequency signal to the maximum, amplifies the signal in the set frequency band, and then lowers the signal to a lower frequency band and transmits the signal to the base baseband processing unit 330. To do.

  The base band 330 adds an access code and a header to various HCI (HOST CONTROL INTERFACE) data packets transmitted from the communication control unit 340 to change the packet format, and converts the data into predetermined data for wireless transmission. The packet is changed to a packet, wirelessly transmitted in the frequency band set via the RF transmitter 310, and the data packet received via the RF receiver 320 is changed to the HCI packet to change the communication controller To 340.

The communication control unit 340 controls the overall operation of the Bluetooth communication device, and transmits an inquiry response message (inquiry response data packet) of a mobile phone or the like that is a slave that enters from the baseband processing unit 330. When reception is sensed, after setting a connection with each of the mobile phones, control is performed to forcibly switch the notification mode of the mobile phone to the manner mode.
Korean Patent No. 0341988 Specification

  The technology as described above is a technology used in each field, but no wireless communication technology is used between the insulin pump and the blood glucose meter, and this is used because the patient uses it separately. It was inconvenient for patients who had to use it at the same time.

  The present invention is intended to solve this problem, and provides an insulin pump control method in which an insulin pump can operate in real time in conjunction with a measurement value of a blood glucose meter.

  Another object of the present invention is to provide an insulin pump control method that enables remote control.

The present invention also provides an insulin pump communication system that allows patients to receive and direct treatment even overseas.

That is, the present invention is an insulin pump communication system including an insulin pump 500 and a blood glucose measuring device 600 each including a wireless communication chip 700 that can communicate with each other, and the insulin pump 500 corresponds to the insulin pump 500. Means for storing the common ID assigned to each of the blood glucose measuring devices 600, and means for confirming whether or not blood glucose level data is input from the blood glucose measuring device having the common ID (S1); Means for accumulating input data to determine whether or not an abnormality is present (S2), and means for outputting an instruction for operating the insulin pump as it is when there is no abnormality (S3); Means for outputting an instruction to change the amount of insulin pump operation when it is determined that there is an abnormality; Means for outputting an instruction for executing the confirmation (S1) step after outputting an instruction for changing the operation amount of the urine pump, and is considered as an equipment failure when the blood glucose level data is not inputted. The blood glucose meter 600 is configured to be able to change the infusion amount of the insulin pump 500, and the plurality of insulins set to different IDs. The server 500 includes a pump 500, a plurality of blood glucose measuring devices having IDs corresponding to the insulin pumps 500, and a server setting insulin pump 500 which is set to be able to execute a server function separately from the insulin pumps 500. The insulin pump 500 converts the blood glucose level data input from each blood glucose meter to the blood glucose level data. And Zui, with identifying the insulin pump 500 corresponding to the blood glucose meter that outputs the blood glucose level data, and characterized in that it is configured to output instructions for its operation with respect to the identified insulin pump An insulin pump communication system is provided.

The present invention is also a plurality of blood glucose meters that correspond to a plurality of the insulin pump (P1-Pn) and their insulin pump with a built respectively communicable wireless communication chip 700 with one another and (B1-Bn), these insulin pump and blood glucose the wireless communication apparatus 300 having a function for centrally controlling the measuring device, this is to be able to transmit and receive configuration data between the wireless communication device 300, and a computer 800 having a wireless communication chip body 810 700 is incorporated the body 810 is initially instructs to perform basic setting mode and (H1) means for, the blood glucose level from the blood glucose meter to determine whether or not the input (H2) means for the , when the blood glucose level is input to the corresponding insulin pump to inject the set injection amount corresponding to the blood glucose level A decree to (H3) means for, and means for determining whether it is necessary to doctor mode (H4) which in the step (H3), when it is determined that it is necessary to doctor mode, the and means for causing execution (H5) of the highest priority for driving the insulin pump by the physician mode, and means for determining whether the doctor mode is completed (H6), it is determined that the doctor mode is completed In this case, the step (H1) is configured to be executed , and at least one of the blood glucose measuring devices (B1-Bn) can change an injection amount of an insulin pump corresponding to the blood glucose measuring device. An insulin pump communication system characterized by being configured is provided.

According to the present invention, it is incorporated respectively a wireless communication chip to the insulin pump and blood glucose meters, so as to allow operation of the insulin pump in a wireless communication between each other, to enable the operation of the insulin pump in real time.

  In addition, the present invention assigns IDs to a large number of insulin pumps and blood glucose measuring devices, and installs a wireless communication device in the center to control communication. The central wireless communication device cooperates with a server function computer, Each blood glucose level is received wirelessly and the corresponding prescription is commanded to the corresponding insulin pump, so that the nurse can adjust the injection volume at once without going to the patient. Sex and quick prescription can be possible.

  At the same time, the server is linked with the Internet network to provide the effect that doctors can prescribe patients overseas.

  Hereinafter, embodiments of the present invention will be described in detail with reference to the drawings.

  FIG. 8 is a block diagram of the present invention, and includes an insulin pump 500 and a blood glucose meter 600 each incorporating a Bluetooth (registered trademark) chip 700, the Bluetooth chip 700, a separate transmission / reception unit 350, and a communication control unit 340. The apparatus includes a Bluetooth communication device 300, a main body 810 including a Bluetooth chip 700 that transmits and receives data to and from the Bluetooth communication device 300, a monitor 820, and a computer 800 including a keyboard 830. When necessary, it can be configured and used to exchange data with another computer 801 connected to the Internet network.

  FIG. 9 is a configuration diagram showing an electrical connection structure of an insulin pump 500 with a built-in Bluetooth chip. A control button unit 123 that instructs driving of the insulin pump and a microcomputer that recognizes the operation of the control button unit 123. A control unit 170 having a function, a display unit 124 that outputs and displays recognized data, a ROM 165 that stores various data and programs, and a motor drive unit 167 that drives a motor 168 by the control output of the control unit 170. In the insulin pump control circuit having the motor 168 in which the rotational force for driving the syringe piston is controlled by the motor drive unit 167 and the photocoupler 169 that senses the phase of the motor 168, the control unit 170 that controls the insulin pump Bluetooth And a function for control are added to the program, and the Bluetooth chip 700 is controlled by connecting the Bluetooth chip 700 to one terminal (P6) of the control unit. 170 receives the command of 170, transmits data to the control unit 170, and modulates the signal sent by the baseband processing unit 740 with the header of the data packet added by the command of the microcomputer 710. , An RF transmitter 720 for transmitting as an RF signal, an RF receiver 730 for detecting and receiving a signal received via another Bluetooth chip 700, a header, etc. based on a command (data packet) of the microcomputer 710 To transmit data parameters for wireless transmission Feeding the RF transmission unit 720 to change as Tsu bets, change in the data packet to recognize the sender's ID and the data in the received data packet, consisting baseband processor 740 to send to the microcomputer 710.

  FIG. 10 is a configuration block diagram of a blood glucose measuring device 600 according to the present invention. The microcomputer 250, the digital / analog converter 212 that drives the measurement lamp 211 in accordance with a command from the microcomputer 250, the lamp driving unit 213, and the measurement lamp 211. The blood pressure level can be measured by providing a ramp signal receiving unit 214 for receiving the measured value and an analog / digital converter 215 that converts the signal of the ramp signal receiving unit 214 into a digital signal and sends it to the microcomputer 250. In the blood glucose meter, the Bluetooth chip 700 is connected to one terminal (P8) of the microcomputer 250, and the microcomputer 250 has a function (program) capable of exchanging data with the Bluetooth chip 700, and the insulin pump 500 is connected. Drive Input means and receives a signal from another Bluetooth chip that has become to be able to drive that has been set. Since the Bluetooth chip 700 itself has the same configuration as that shown in FIG. 9, the description thereof is omitted here.

FIG. 11 is a block diagram illustrating the implementation of the present invention. Insulin pumps (P1-Pn) and blood glucose measuring devices (B1-Bn) corresponding to each other incorporate each Bluetooth chip 700 to enable mutual communication. A Bluetooth communication device 300 having a central control function is provided. The Bluetooth communication device 300 includes a transmission / reception unit 350 and a communication control unit 340. The transmission / reception unit 350 communicates with a computer 800 in which the main body 810 has the Bluetooth chip 700 built therein, and can exchange data. 820 is a monitor,
Reference numeral 830 denotes a keyboard, and 801 denotes a general computer.

  FIG. 12 is a flowchart showing a process executed by the control unit 170 of the insulin pump 500 so as to recognize the data of the insulin pump 500 and the blood glucose measuring device 600 and control the operation of the insulin pump 500. In the preliminary stage, IDs are assigned to the insulin pump 500 and the blood glucose measuring device 600 that are applicable (S0).

  Subsequently, it is determined whether or not blood glucose level data has been input from the corresponding ID device (blood glucose measuring device 600) (S1).

  If blood glucose level data has been input (YES in S1), the input data is accumulated to determine whether an abnormality is present (S2).

  If there is no abnormality (NO in S2), an instruction is given to operate as existing (S3).

  If there is an abnormality (YES in S2), an instruction is given to change the amount of insulin pump operation, and the first stage (S1) is executed (S4).

  If there is no data input in the step (S1) (NO in S1), it is regarded as a failure of the device, and an emergency alarm is output so that the user of the device is directly searched and processed (S5).

  Following the step (S1), if the input source device is a device set by the server, the measurement data for each corresponding measuring device is accumulated to determine whether or not an abnormality is present (S6).

  When it is determined that there is an abnormality in the step (S6), the injection amount of the insulin pump corresponding to the ID is changed (S7). Of course, if not abnormal, the step (S3) is executed.

FIG. 13 is a flowchart of processing executed by a program stored in the main body 810 in a configuration in which data received by the Bluetooth communication apparatus 300 of the present invention is received by a computer 800 as a server and can be commanded based on the received data. First, it is instructed to execute the basic setting mode (H1), and if it is determined that the blood glucose level is input from the corresponding device (YES in H2), the corresponding insulin pump 500 is set corresponding to the blood glucose level. Command to inject the injection amount (H3).

  When the doctor mode is necessary in the step (H3) (H4), the insulin pump is driven with the highest priority in the doctor mode (H5), and when the doctor mode is completed, the step (H1) is executed. (H6).

  According to the present invention configured in the same manner, the Bluetooth chip 700 that is generally used is built in the insulin pump 500 and the blood glucose measuring device 600, and at the same time, the Bluetooth communication device 300 and the Bluetooth communication device that communicate with these devices 500 and 600 A computer 800 is provided that communicates with 300 and performs server functions.

  The present invention enables an individual to communicate with each other using the Bluetooth chip 700 between the insulin pump 500 and the blood glucose measuring device 600, so that the user can operate the insulin pump 500 separately. Convenience is provided in which the infusion amount of the insulin pump 500 is changed according to the blood glucose level measured using the blood glucose measuring device 600 and can be used.

According to this, as in FIG. 8 and FIG. 12, the blood glucose from the blood glucose measuring device 600 of the corresponding ID in the state where the blood glucose measurement value 600 corresponding to the insulin pump 500 is given an ID so that it can communicate with each other (S 0). A measured value (of course, the user must measure blood glucose using the blood glucose meter 600) is received via the Bluetooth chip 700 (S1).

  The insulin pump 500 accumulates this and determines whether or not there is an abnormality by comparing it with a reference value stored in advance on the basis of whether it is temporary or persistent (S2). If it is determined that there is an abnormality, the injection amount of the insulin pump 500 is changed and the injection is performed (S4). If there is no data input in (S1), it is regarded as abnormal and an alarm is output (S5).

  On the other hand, the present invention enables a doctor to carry out a kind of simple server function while carrying the insulin pump 500, which is set as the server after the step (S1). If it is, the ID of the blood glucose meter that has been input is classified and accumulated for each ID, and whether or not there is an abnormality is determined for each ID (S6).

  Subsequently, if it is determined that there is an abnormality, in order to change the injection amount of the insulin pump 500 set corresponding to the ID, it is handled via the Bluetooth communication device 300 that changes the injection amount of the insulin pump 500. The drive of the insulin pump 500 is commanded (S7).

  On the other hand, as shown in FIG. 8, in the present invention, when a computer 800 is connected to a personal computer 801 through the Internet, a doctor can adjust the amount of infusion of a patient even in a foreign country. Of course, for this purpose, it is necessary to establish a communication state between each other by setting an IP address or the like, and to install a program that cooperates with the Bluetooth communication device so that the computer 800 operates on the server.

  The present invention is also similar to FIG. 11 and FIG. 13, so that many patients can use an insulin pump (500: P1-Pn) and a corresponding blood glucose meter (600: B1-Bn) as a set. In this state, the insulin pump (P1-Pn) and the corresponding blood glucose meter (B1-Bn) are designated as a pair, and a separate Bluetooth communication device 300 is provided to enable mutual communication. When configured, communication between each insulin pump 500 and each blood glucose measuring device 600 becomes possible as shown in FIGS. However, the insulin pump 500 and the blood glucose meter 600 can not only communicate with each other through the Bluetooth communication device 300, and the Bluetooth communication device 300 also functions as a server by using the computer 800 having the Bluetooth 700 in the main body 810 as well. To. That is, the main body 810 of the computer 800 commands the insulin pump 500 to operate through the Bluetooth communication device 300 and the Bluetooth 700 of the insulin pump 500 so as to operate in the basic mode or the setting mode of each applicable person (H1). ). In this state, the computer 800 determines whether or not a blood glucose level is input from the blood glucose meter (600: for example, B1) with the corresponding ID through the Bluetooth communication device 300 (H2). Based on the setting program, the computer 800 calculates a corresponding injection amount by comparing it with a key-entered reference value, and operates the insulin pump 500 through the Bluetooth communication device 300 based on this. (H3).

  Based on the calculated value in the step (H3), if a doctor's treatment is required (H4), the drive corresponding to the injection amount inputted by the doctor using the keyboard 830 is executed with the highest priority over the other modes. (H5).

  The doctor mode can be instructed by a doctor at a predetermined time, and if the measured value is normal, the normal normal mode may be executed. Therefore, when the doctor mode is completed according to the designated method (H6), the step (H1) is executed.

  The preferred embodiment of the present invention has been described above. However, the present invention is not limited to the above-described embodiment, and various modifications can be made based on the technical idea of the present invention.

The oblique view of the insulin pump with which this invention is applied. The control block block diagram of FIG. Sectional drawing of a common blood glucose meter. The block block diagram of the blood glucose meter of FIG. The time chart which shows the insulin input amount corresponding to a blood glucose level. The block block diagram which shows the usage example of a general Bluetooth communication apparatus. The block block diagram which shows an example of the Bluetooth communication apparatus of FIG. The block block diagram of this invention. The block diagram of the configuration of the insulin pump of the present invention. The block diagram of the blood glucose level measuring device of the present invention. The block diagram which showed the structure which controls the insulin lamp and blood glucose measurement value of this invention by the server of a computer using a Bluetooth communication apparatus. The flowchart which shows the process which the insulin pump performs this invention. It is a flowchart which shows the process which a server computer performs this invention.

Explanation of symbols

DESCRIPTION OF SYMBOLS 300 Bluetooth communication apparatus 310 RF transmission part 320 RF receiving part 330 Baseband process part 340 Communication control part 350 Transmission / reception part 500 Insulin pump 600 Blood glucose meter 700 Bluetooth chip 800 Computer 810 Main body

Claims (2)

An insulin pump communication system including an insulin pump 500 and a blood glucose meter 600 each including a wireless communication chip 700 capable of communicating with each other,
The insulin pump 500 includes:
Means for storing a common ID assigned to each of the insulin pump 500 and the blood glucose meter 600 corresponding thereto;
Means for confirming whether or not blood glucose level data is inputted from the blood glucose meter having the common ID (S1);
Means for accumulating input data to determine whether or not an abnormality is present (S2);
Means for outputting an instruction for operating the insulin pump as existing when it is determined that there is no abnormality (S3);
Means capable of outputting an instruction to change the insulin pump operating amount when it is determined that there is an abnormality;
Means for outputting an instruction for executing the confirmation (S1) step after outputting an instruction for changing the insulin pump operating amount;
While the blood glucose level data is not input, the device is regarded as a malfunction of the device and is provided with a means for notifying an emergency warning (S5),
The blood glucose meter 600 is configured to change the injection amount of the insulin pump 500 ,
A plurality of insulin pumps 500 set with different IDs, a plurality of blood glucose measuring devices having IDs corresponding to the insulin pumps 500, and the insulin pumps 500 are set to be able to execute server functions. And the server setting insulin pump 500. The server setting insulin pump 500 is based on the blood glucose level data input from each blood glucose measuring device and corresponds to the blood glucose measuring device that outputs the blood glucose level data. The insulin pump communication system is characterized in that 500 is specified and an instruction for the operation can be output to the specified insulin pump. A plurality of insulin pumps (P1-Pn) each incorporating a wireless communication chip 700 capable of communicating with each other, and a plurality of blood glucose measuring devices (B1-Bn) corresponding to these insulin pumps;
A wireless communication device 300 having a function of centrally controlling these insulin pump and blood glucose measuring device;
A computer 800 having a main body 810 in which the wireless communication chip 700 is built, and configured to transmit and receive data to and from the wireless communication device 300;
The main body 810 includes:
Means for instructing (H1) to initially execute the basic setting mode;
Means for determining whether or not a blood glucose level is input from each blood glucose meter (H2);
Means for instructing (H3) a corresponding insulin pump to inject a set injection amount corresponding to the blood glucose level when the blood glucose level is inputted;
Means for determining (H4) whether or not a doctor mode is necessary in the step (H3);
When it is determined that the doctor mode is necessary, the insulin pump drive in the doctor mode is executed with the highest priority (H5);
Means for determining whether or not the doctor mode is completed (H6),
The step (H1) is configured to be executed when it is determined that the doctor mode is completed,
An insulin pump communication system, wherein at least one of the blood glucose measuring devices (B1-Bn) is configured to change an injection amount of an insulin pump corresponding to the blood glucose measuring device.

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